PhD: Light-Activated Micromotors for Biomedical Tech

DTU Sundhedsteknologi (Kgs. Lyngby); Kongens Lyngby; On-site; DKK 420,000 - 480,000; Full time

Job summary

DTU Health Tech in Denmark invites applications for a PhD project at the interface of micro/nanotechnology, biomaterials, and biomedical engineering to develop near-infrared light-activated micromotors for hidradenitis suppurativa.

You will design biodegradable Janus micromotors, build 3D hydrogel HS tunnel models, and study active transport versus passive diffusion, contributing to publications and international collaborations.

Qualifications

• Requires a two-year master's degree or equivalent in a related field.
• Strong interest in micro- and nanotechnology and hands-on experimental work.
• Experience with light-responsive or photothermal materials is advantageous.
• Ability to work both independently and in interdisciplinary teams.

Responsibilities

• Design and fabricate NIR-responsive Janus micromotors with controlled size and surface properties.
• Characterize morphology, optical and photothermal properties, stability, and biodegradability.
• Evaluate micromotor propulsion in skin-relevant environments.
• Develop 3D hydrogel-based models mimicking the confined HS tunnel architecture.
• Disseminate research findings through scientific publications and international conferences.

Skills

Micro/nanotechnology

Biomaterials

Photothermal materials

Interdisciplinary research

Experimental research

Education

Master's degree (2-year) in nanotechnology, chemistry, materials science, biomedical engineering, pharmaceutical sciences, biotechnology, or related field

Tools

Microscopy

Microfabrication

Hydrogel fabrication

3D modelling

Particle tracking

Job description

DTU Health Tech in Denmark invites applications for a PhD project at the interface of micro/nanotechnology, biomaterials, and biomedical engineering to develop near-infrared light-activated micromotors for hidradenitis suppurativa.

You will design biodegradable Janus micromotors, build 3D hydrogel HS tunnel models, and study active transport versus passive diffusion, contributing to publications and international collaborations.